Abstract: A high-current connector is provided, comprising an insulating body which has at least one contact carrier having at least one contact chamber, which has at least two through-openings on the plug-in side, and at least two electrically conductive plug-in contacts which are arranged parallel to one another in the contact chamber and each have a cable connection region at a first end and a plug-in region opposite at a second end, the plug-in regions of the plug-in contacts being guided through one of the through-openings each of the contact chamber. The high-current plug connector also has an electrically conductive connection element which is inserted into the contact chamber and which has at least two contact receptacles, into each of which one of the plug-in contacts is inserted interlockingly and frictionally by its plug-in region, and the at least two plug-in contacts are electrically conductively connected to one another by the connection element.

Abstract: A connector and a decking structure between a vehicle body and a battery including the same are provided. The connector includes a first connector assembly that has a downwardly protruding guide pin and a second connector assembly that is coupled to the first connector assembly in a lower portion of the first connector assembly and includes a guide aperture in which the guide pin is accommodated.

Abstract: An electrical connector includes an insulating body, multiple terminals respectively correspondingly accommodated in the insulating body, and a shielding member provided on the insulating body. The terminals includes at least one grounding terminal and at least one signal terminal having identical structures. Each terminal includes a base, an elastic arm bending upward and extending from the base for being conductively connected with a chip module, and at least one strip connecting portion formed by extending upward from the base for being connected with a strip. The shielding member is provided with multiple holes for the grounding terminal and the signal terminal to pass therethrough, and at least one abutting portion corresponding to the strip connecting portion of the grounding terminal and protrudingly extending toward at least one of the holes so as to be in contact with the strip connecting portion of the grounding terminal.

Abstract: Electrically insulative organizers configured to maintain alignment of leadframe assemblies in an electrical connector are disclosed, in one example, an organizer includes a stiffener wall and a projection that extends from the stiffener wall. The electrically insulative body is sized to be inserted into a channel defined by the leadframe assemblies. In another example, an organizer includes an electrically insulative organizer body and a plurality of divider walls that are supported by the organizer body and spaced from each other along a lateral direction so as to be positioned for insertion between adjacent leadframe assemblies.

Abstract: A connector assembly includes a shield structure and a contact module having signal contacts with signal pins and ground pins forming part of the shield structure providing electrical shielding for the signal pins. A pin organizer is coupled to the contact module and includes a conductive frame and a dielectric frame having plugs. The conductive frame is electrically connected to the shield structure and has ground pin holes receiving corresponding ground pins and windows receiving corresponding plugs. The plugs have signal pin holes receiving corresponding signal pins. The plugs electrically isolate the signal pins from the conductive frame. The pin organizer substantially fills a space between the bottoms of the contact modules and the circuit board to provide electrical shielding for the signal pins between the bottoms of the contact modules and the circuit board.

Abstract: A connector includes a contact that has a first end provided with a contact point for connecting to a coaxial cable, and a second end provided with a terminal for connecting to a substrate, a body that includes a contact mount to which the contact is mounted and a substrate mount to which the substrate is mounted, and a bracket attached to the substrate mount, that holds the substrate and includes a slot into which the terminal is inserted. The bracket is detachably attached to the body, and the terminal applies pressure to the substrate and contacts the substrate by mounting the bracket to the body.

Abstract: An electrical connector with improved high frequency performance. The connector has conductive elements, forming both signal and ground conductors, that have multiple points of contact distributed along an elongated dimension. The ground conductors may be formed with multiple beams of different length. The signal conductors may be formed with multiple contact regions on a single beam, with different characteristics. Signal conductors may have beams that are jogged to provide both a desired impedance and mating contact pitch. Additionally, electromagnetic radiation, inside and/or outside the connector may be shaped with an insert electrically connecting multiple ground structures and/or a contact feature coupling ground conductors to a stiffener. The conductive elements in different columns may be shaped differently to reduce crosstalk.

Abstract: A connector includes ferrite cores (30A, 30B) with through holes (30H). A terminal fitting (20) has tab terminals (22A, 22B) inserted into the respective through holes (30H) to define input and output portions and a base (23) couples end parts of the respective tab terminals (22A, 22B) to each other. A connector housing (11) is molded to surround the ferrite cores (30A, 30B) and the terminal fitting (20) and is connectable to a mating connector housing. The ferrite cores (30A, 30B) include long sides LL and short sides SL. Clearances S are defined between side surfaces M located on the opposite short sides SL of the ferrite cores (30A, 30B) and facing surfaces of the connector housing (11), thereby separating the side surfaces M from the facing surfaces.

Abstract: An electrical connector and a method for assembling the electrical connector is provided, wherein the electrical connector includes a connector shell defining a connector shell cavity and having a connector nose end and a connector base end, wherein the connector shell includes a connector shell internal threaded portion proximate the connector base end, a contact insert having a power contact carrier, a ground contact carrier and a ground plane, wherein the ground contact carrier is conductively connected to the ground plane and a bonding nut having a bonding nut threaded portion, wherein the contact insert and bonding nut is contained within the connector shell cavity to be proximate the connector base end, such that the bonding nut threaded portion engages the connector shell internal threaded portion to contact the ground plane.

Abstract: Apparatus and methods can provide for reduced crosstalk in a conductive body connector. In some implementations, such apparatus and methods can include applying or embedding a selectively resistive material between channel elements to reduce return ground current sharing. The selectively resistive material can operate to increase the effective resistance between channels and thereby reduce crosstalk.

Abstract: A direct-connect orthogonal electrical connection system with improved high frequency performance is provided. A conductive member is provided between first and second components, each having signal and ground conductors. The conductive member is electrically coupled to ground conductors of both the first and second components and may also have openings through which signal conductors of the first and second components may connect. As such, signal conductors may be positioned relative to the conductive member such that a uniform impedance is maintained along a signal path throughout the interconnection, reducing noise and reflections. The signal conductors may be formed with multiple beams of different lengths to create multiple points of contact distributed along an elongated dimension. For example, a third beam may be fused to a mating portion to allow a tolerance for deviations in alignment between two directly connected connectors.

Abstract: An intercoupling component for receiving an array of contacts within a digital or analog transmission system having an electrical ground circuit and chassis ground circuit, the intercoupling component may include a segment formed of electrically insulative material and having an upper and lower surface, the segment including a plurality of holes disposed on its upper surface and arranged in a predetermined footprint, one or more a shield members formed of electrically conductive material disposed within the segment and configured to connect to the chassis ground circuit of the system and a frame formed of electrically conductive material and configured to connect with the chassis ground circuit of the system. The intercoupling component may include an array of electrically conductive contacts grouped to multi-contact groupings configured to transmit single-ended or differential signals.

Abstract: An aircraft wiring installation connecting a set of fuel side wires in an aircraft fuel tank to a set of airside wires outside the fuel tank, the installation comprising: a connector box having a fuel side wall (22) and an airside wall (21); one or more connectors (40, 43) carried by the fuel side wall (22) which connect the fuel side wires to the airside wires; a fairing (6) partially covering the airside wall (21); and one or more holes (30) in the airside wall through which the airside wires pass from the connector box into the fairing (6).

Abstract: A high speed electrical connector assembly (1) comprises a female connector (2) and a male connector (3) assembled together to be electrical connection to a printed circuit board (9). A plurality of differential pairs of signal contact (51) and a plurality pairs of ground contact (53) with the pairs of signal contacts (51) arranged therebetween are secured in the connector assembly (1). Each of the differential pairs of signal contact (51) has a first contact engaging portion (511) which is accessible from the female connector (2), and includes a second contact engaging portion (513), extending away from the first engaging portion (511) and accessible from the male connector (3). A shielding bus (10) is electrically interconnecting to at least one of the ground contact (53), and includes a shroud portion substantially enclosing the median portion of the pair of signal contacts (51).

Abstract: A connector (200) is provided that comprises a dielectric body (DB), pins (302), and a plate (800). Each pin is captured within DB (404) so as to extend therethrough. Each pin is defined by a pair of nubs (410, 510) extending from DB's opposing faces (408, 604), respectively. Each nub is movable along an axis aligned with an elongated length of the pin. The plate is formed of a planar conductive material secured to DB adjacent to a first opposing face. The plate comprises apertures through which the pins extend in a first direction. At least one aperture is sized and shaped to form an electrical connection between the plate and selected pins. Resilient spring fingers (RSF) are formed on a periphery of the plate. Each RSF (1006) extends away from DB in a direction between a plane defined by the first opposing face and first direction of the pins.